MULTI-FUNCTIONAL RECONFIGURABLE BAG WITH ADJUSTABLE STRUCTURAL ELEMENTS

Description

CROSS-REFERENCE TO RELATED APPLICATIONS

This application claims priority U.S. Application No. 63/695,092 titled MULTI-FUNCTIONAL CONVERTIBLE BAG, filed Sep. 16, 2024, which is hereby incorporated by reference in its entirety.

TECHNICAL FIELD

The present disclosure relates to reconfigurable bags and carrying devices, and more particularly to a multi-functional convertible bag with adjustable structural elements including removable boning, configurable drawstring patterns, and removable dividers that allow a single bag to be transformed into multiple shapes and configurations.

BACKGROUND

Bags and carrying devices have evolved significantly over time to meet diverse consumer needs for functionality, aesthetics, and convenience. Traditional bags are typically designed with fixed shapes and configurations, limiting their utility to specific purposes or occasions. Consumers often find themselves purchasing multiple bags to accommodate different activities, storage requirements, or aesthetic preferences, resulting in increased costs and storage challenges.

The bag industry has seen various attempts to address versatility through different approaches. Some manufacturers have developed bags with removable exterior covers or decorative elements that allow users to change the aesthetic appearance while maintaining the same basic structure and functionality. Other innovations have focused on expandable designs that can increase or decrease in size, providing some degree of adaptability for varying storage needs. Additionally, convertible bags have been introduced that can transform between different styles, such as converting from a handbag to a backpack configuration.

Existing bag designs face several limitations that restrict their adaptability and user satisfaction. Many convertible bags are time-consuming and cumbersome to reconfigure, often including multiple steps or complex mechanisms that discourage frequent transformation. The conversion process may also result in visible hardware or structural elements that compromise the aesthetic appeal of the bag in certain configurations.

Current expandable bag solutions typically offer limited expansion options, usually focusing on increasing volume in one dimension while maintaining the same basic shape and structure. These designs do not provide users with the ability to fundamentally alter the bag's form factor or create different organizational configurations within the same carrying device.

Another challenge in the field relates to structural support and shape maintenance in flexible bag designs. Many soft-sided bags lack adequate structural elements to maintain their intended shape when loaded with items, leading to sagging, collapsing, or uneven weight distribution. While some bags incorporate rigid frames or permanent structural elements, these solutions add weight and bulk while limiting the bag's ability to be reconfigured or stored compactly when not in use.

Existing solutions for providing structural support, such as permanent internal frames or fixed dividers, offer limited customization options and cannot be easily adjusted or removed based on the user's changing needs. These rigid approaches prevent users from optimizing the internal organization and structural configuration for different types of contents or usage scenarios.

Furthermore, the transfer of personal items between different bags remains a persistent inconvenience for users who wish to change their carrying solution based on different occasions or requirements. This process is time-consuming and increases the likelihood of forgetting items in one bag when switching to another. The logistical challenges associated with maintaining multiple bags with different contents can lead to user frustration and inefficient organization of personal belongings.

SUMMARY

This summary is provided to introduce a selection of concepts in a simplified form that are further described below in the detailed description. This summary is not intended to identify key features or essential features of the claimed subject matter, nor is it intended to be used as an aid in determining the scope of the claimed subject matter.

In one embodiment, a reconfigurable bag is provided. In this embodiment, the reconfigurable bag includes a generally circular shaped textile having an outer circumference. The reconfigurable bag includes a plurality of eyelets disposed along the outer circumference of the textile. The reconfigurable bag includes a plurality of channels formed within the textile, each channel extending from a central region toward the outer circumference and configured to receive a removable boning insert. The reconfigurable bag includes a drawstring configured for threading through the eyelets in different patterns, whereby cinching the drawstring in different eyelet patterns forms the bag into different shapes. The reconfigurable bag includes a securing mechanism configured to secure the drawstring when cinched, thereby maintaining the bag in an assembled configuration.

In another embodiment, a method of reconfiguring a bag is provided. In this embodiment, the method includes providing a generally circular shaped textile having a plurality of eyelets disposed along an outer circumference and a plurality of channels formed within the textile. The method includes threading a drawstring through selected eyelets of the plurality of eyelets in a first pattern. The method includes cinching the drawstring to form the bag into a first shape. The method includes securing the drawstring with a securing mechanism to maintain the first shape. The method includes releasing the securing mechanism. The method includes threading the drawstring through selected eyelets in a second pattern different from the first pattern. The method includes cinching the drawstring to form the bag into a second shape different from the first shape.

The foregoing general description of the illustrative embodiments and the following detailed description thereof are merely exemplary aspects of the teachings of this disclosure and are not restrictive.

BRIEF DESCRIPTION OF FIGURES

Non-limiting and non-exhaustive examples are described with reference to the following figures.

FIG. 1 is a perspective view of a reconfigurable bag in an assembled configuration with a drawstring closure and exterior pocket, according to one embodiment of the subject matter disclosed herein.

FIG. 2 is a perspective view of the assembled reconfigurable bag showing an outer lining with patterned material, according to one embodiment of the subject matter disclosed herein.

FIG. 3 is a top, inner view of the reconfigurable bag in an unassembled flat configuration showing the inner lining with radial channels, according to one embodiment of the subject matter disclosed herein.

FIG. 4 is a top view of the unassembled reconfigurable bag showing the outer lining with attachment points, according to one embodiment of the subject matter disclosed herein.

FIG. 5 is a top view of the assembled reconfigurable bag with a divider creating separate compartments, according to one embodiment of the subject matter disclosed herein.

FIG. 6 is a top view of the assembled reconfigurable bag showing an alternative interior configuration with multiple fabric sections, according to one embodiment of the subject matter disclosed herein.

FIG. 7 is a top, inner view of a circular lining showing radially-arranged channels and eyelets, according to one embodiment of the subject matter disclosed herein.

FIG. 8 is a top, inner view of the circular lining with a reinforcing fabric section and symmetrical channel arrangement, according to one embodiment of the subject matter disclosed herein.

FIG. 9 is a side view of an alternative embodiment of the assembled reconfigurable bag with carrying strap, according to one embodiment of the subject matter disclosed herein.

FIG. 10 is a perspective view showing the interior of the assembled reconfigurable bag with structural channels, according to one embodiment of the subject matter disclosed herein.

FIG. 11 is a front view of an embodiment of the divider, illustrating the slits that may be disposed within the channels for securing the divider in the bag.

DETAILED DESCRIPTION

The following description sets forth exemplary aspects of the present disclosure. It should be recognized, however, that such description is not intended as a limitation on the scope of the present disclosure. Rather, the description also encompasses combinations and modifications to those exemplary aspects described herein.

A detailed description of systems, devices, and methods consistent with embodiments of the present disclosure is provided below. While several embodiments are described, it should be understood that disclosure is not limited to any one embodiment, but instead encompasses numerous alternatives, modifications, and equivalents. In addition, while numerous specific details are set forth in the following description in order to provide a thorough understanding of the embodiments disclosed herein, some embodiments can be practiced without some or all of these details. Moreover, for the purpose of clarity, certain technical material that is known in the related art has not been described in detail in order to avoid unnecessarily obscuring the disclosure.

The object of the present disclosure is to provide an improved reconfigurable bag 1 that overcomes the limitations of existing convertible bag systems. This bag aims to provide easy and convenient transformation between multiple shapes and configurations through the use of adjustable structural elements including removable boning inserts 32, configurable drawstring 6 patterns, and removable dividers 42. Further, by incorporating a circular textile design with strategically positioned eyelets 18 and channels 30, the bag 1 seeks to maximize versatility while maintaining structural integrity and aesthetic appeal in each configuration. The bag disclosed herein also aims to reduce the need for multiple bags by providing a single carrying solution that can be customized for different occasions, storage requirements, and functional needs, thereby reducing costs and simplifying personal item organization for users.

The following description sets forth exemplary aspects of the present disclosure. It should be recognized, however, that such description is not intended as a limitation on the scope of the present disclosure. Rather, the description also encompasses combinations and modifications to those exemplary aspects described herein.

A detailed description of systems, devices, and methods consistent with embodiments of the present disclosure is provided below. While several embodiments are described, it should be understood that disclosure is not limited to any one embodiment, but instead encompasses numerous alternatives, modifications, and equivalents. In addition, while numerous specific details are set forth in the following description in order to provide a thorough understanding of the embodiments disclosed herein, some embodiments can be practiced without some or all of these details. Moreover, for the purpose of clarity, certain technical material that is known in the related art has not been described in detail in order to avoid unnecessarily obscuring the disclosure.

Referring to FIG. 1, the reconfigurable bag 1 may be shown in an assembled configuration. The bag 1 may display a generally rounded shape when assembled. The sides 2 may extend upward from a base portion 4. The drawstring closure 6 may be positioned at the upper portion of the bag. The exterior surface 8 may include a pocket 12 positioned on the outer surface.

The carrying strap 14 may be attached to the upper portion of the bag 1. The strap 14 may enable various carrying configurations for the user. The attachment points 16 may allow repositioning based on the assembled shape. The strap 14 may be removably attached to facilitate different carrying arrangements. The bag 1 may maintain structural integrity when the strap 14 bears weight during transport.

The drawstring 6 may extend through eyelets 18 positioned around the upper circumference of the bag 1. The eyelets 18 may allow the bag 1 to be cinched closed when the drawstring 6 is pulled taut. The drawstring 6 may be threaded through multiple eyelets 18 in various patterns. Different threading patterns may create different assembled shapes for the bag 1. The cinching action may gather the material to form closure of the bag 1.

The exterior pocket 12 may be stitched onto the outer surface 8 of the bag 1. The pocket 12 may provide additional storage space for smaller items. A rectangular shaped pocket 12 may accommodate various personal belongings or accessories. The pocket 12 may remain accessible when the bag 1 is in the assembled configuration. The stitching may secure the pocket 12 to the main body of the bag 1.

The textile material may be constructed from various materials including cotton, nylon, or vinyl. Other suitable fabrics may also be utilized for the construction. The material selection may depend on the intended use of the bag 1. Different materials may provide varying levels of durability and aesthetic appeal. The fabric choice may influence the overall weight and portability of the bag 1.

The material may be waterproof or water-resistant for enhanced functionality. Stain resistance may be provided through the material selection. Cleaning may be provided by the water-resistant properties. The surface may allow wiping clean when spills or dirt occur. The waterproof characteristics may protect contents from moisture exposure during use.

The drawstring 6 may be constructed from various materials including cord, paracord, or grosgrain. Nylon, cotton, tweed, or silk may be utilized for the drawstring 6 construction. The material selection may provide durability for repeated use. The drawstring 6 material may withstand tension when the bag 1 is cinched closed. Different materials may offer varying levels of grip and handling comfort.

The terminal ends 26 of the drawstring 6 may include aglets or knots to prevent fraying. The aglets may provide a finished appearance to the drawstring ends 26. Knots may serve as an alternative method for preventing material degradation. The end treatments may extend the lifespan of the drawstring 6 component. The terminal treatments may also prevent the drawstring 6 from pulling through the eyelets during use.

Referring to FIG. 2, the reconfigurable bag 1 may be shown in an assembled configuration featuring an outer lining 8 constructed from a patterned material. The patterned material may display decorative designs, colors, or textures that enhance the aesthetic appeal of the bag 1. The pattern may be printed, woven, or otherwise applied to the textile surface during manufacturing. Different pattern types may be selected based on user preferences or intended applications. The patterned outer lining 8 may provide visual interest while maintaining the functional characteristics of the bag 1. The decorative elements may remain visible when the bag 1 is assembled into various configurations. The pattern selection may influence the overall appearance of the bag 1 in different assembled shapes.

The drawstring 6 mechanism may create visual effects when applied to the patterned material. The gathering action of the drawstring 6 may cause the pattern to bunch and fold in specific ways. The cinching process may create texture variations across the surface of the assembled bag 1. Different drawstring tensions may produce varying degrees of pattern distortion or enhancement. The gathered material may form pleats or folds that accentuate certain aspects of the underlying pattern. The visual effects may change based on the eyelet 18 pattern selected for drawstring 6 threading. The interaction between the drawstring 6 mechanism and patterned material may create aesthetic combinations for each assembled configuration.

The carrying strap 14 may be attached to the sides 2 of the bag 1 and may complement the patterned material design. The strap attachment points 16 may be positioned to optimize the visual balance of the assembled bag 1. The strap 14 material may be selected to coordinate with or contrast against the patterned outer lining 8. The strap attachment mechanism 20 may allow for strap 14 repositioning based on the assembled shape of the bag 1. The strap 14 may bear the weight of the bag 1 contents while maintaining secure attachment to the patterned textile. The positioning of the strap 14 may influence how the pattern is displayed when the bag 1 is carried. The strap 14 attachment may be designed to minimize interference with the pattern visibility.

Different materials may be utilized for the patterned outer lining 8 to achieve various aesthetic and functional purposes. Cotton fabrics may provide breathability and comfort while displaying vibrant printed patterns. Nylon materials may offer durability and water resistance while supporting complex woven or printed designs. Vinyl materials may enable easy cleaning and maintenance while accommodating bold graphic patterns. The material selection may influence the drape and gathering characteristics when the drawstring 6 is cinched. Different textile weights may produce varying visual effects when the bag 1 is assembled. The material properties may affect how patterns appear under different lighting conditions or viewing angles.

The edges 22 of the patterned material may be covered or hidden with bias tape, piping, or any other suitable material, for a finished appearance. The bias tape may be selected in colors that complement or contrast with the pattern design. Piping may provide structural reinforcement while creating clean edge lines that frame the patterned material. The edge 22 treatment may prevent fraying of the patterned textile during repeated assembly and disassembly cycles. The finishing materials may be applied using stitching techniques that secure the edges without compromising the pattern visibility. The edge 22 treatment may contribute to the overall professional appearance of the assembled bag 1. The bias tape or piping may be constructed from materials that coordinate with the carrying strap 14 or other hardware elements.

The drawstring 6 may be secured using various closure or securing mechanisms 24 that complement the patterned material aesthetic. Cord toggles may be selected in colors or finishes that coordinate with the pattern design elements. Spring clasps may provide secure closure while offering metallic accents that enhance the overall appearance. Cord fasteners may be chosen to blend with or contrast against the patterned material for different visual effects. Plastic stoppers may be used when lightweight closure mechanisms are desired for the patterned bag 1. The securing mechanism 24 selection may influence the ease of operation when assembling the patterned bag 1. The closure 24 hardware may be positioned to minimize interference with the pattern display when the bag 1 is fully assembled.

Referring to FIG. 3 and FIG. 8, the reconfigurable bag 1 may be shown in an unassembled flat configuration displaying the inner lining 10 structure. The inner lining 10 may comprise a circular-shaped textile that forms the foundation for the bag assembly. The flat configuration may allow the bag 1 to serve as a mat or placemat when lying in the unassembled state. The circular shape may provide uniform material distribution when the bag 1 is subsequently assembled. The inner lining 10 may be constructed from materials that facilitate easy cleaning when used as a placemat. The textile may be selected to provide durability during repeated assembly and disassembly cycles. The flat configuration may enable convenient storage when the bag 1 is not in active use. The circular design may optimize the material usage while providing structural integrity for various assembled configurations.

The inner lining 10 (also referred to herein as “first inner layer”) may include a reinforcing second inner layer 28 that is smaller in diameter than the first inner layer 10. The second inner layer 28 may be positioned concentrically within the first inner layer 10 to provide enhanced support. The smaller diameter configuration creates a reinforced base 4 section in the central region of the bag 1. The reinforcing second inner layer 28 may be affixed to the first inner layer 10 through stitching or other suitable attachment methods. The dual-layer construction may distribute weight more effectively when the bag 1 is loaded with contents. The reinforced base 4 may maintain structural stability during transport and handling. The second inner layer 28 may be constructed from materials that complement the first inner layer 10 properties. The reinforcing configuration may prevent sagging or deformation when the bag 1 contains heavy items. This second inner layer 28 is preferably affixed (via stitching, adhesive, or any other suitable affixing means) to the first inner layer 10 such that a reinforced base 4 of predetermined circumference is created in the center of the bag and a circumferential flap 38 is created on the exterior circumference of the second inner layer 28. This flap 38 provides for interior pockets 40 when the bag 1 is pulled upward into an assembled shape. The size and number of interior pockets 40 may vary depending on the shape of the bag 1 that is created based on the threading of the drawstring 6, position of any bag dividers 42, and placement of the boning 32.

A plurality of channels 30 may extend radially from the central region toward the outer circumference of the inner lining 10. The channels 30 may be arranged in a symmetrical pattern around the circumference of the textile. Each channel 30 may be configured to receive removable boning inserts 32 for structural customization. The radial arrangement may provide uniform support distribution when boning inserts 32 are positioned within the channels 30. The channels 30 may be formed by stitching two layers of fabric together in parallel lines. The stitching pattern may create enclosed spaces that accommodate various boning insert 32 dimensions. The radial configuration may allow for selective boning 32 placement based on desired bag shapes. The channel 30 arrangement may facilitate easy insertion and removal of boning 32 elements during reconfiguration processes. The boning 32 may be constructed of any suitable rigid or semi-rigid material such as plastic, aluminum, or the like. Alternatively, the boning 32 may be more flexible to allow for a softer bag. The boning 32 may also be constructed from a material, like a metal wire, that can be easily bent and manipulated into different shapes, yet hold the form and position as needed.

The channels 30 may terminate at positions near the outer circumference to provide access for boning 32 insertion. Each channel 30 may have an open end 34 that allows for convenient boning 32 placement and removal. The open ends 34 may be positioned to minimize interference with the eyelet 18 arrangements along the outer edge. The channel openings 34 may be covered by fabric flaps 36 that can be lifted for access purposes. The flap 36 design may protect the channel interiors from debris accumulation during use. The channel openings 34 may be reinforced to withstand repeated boning 32 insertion and removal cycles. The channel termination points may be strategically positioned to optimize the structural support distribution. The opening configuration may accommodate various boning 32 insert lengths and cross-sectional dimensions.

A plurality of eyelets 18 may be disposed along the outer circumference of the textile. The eyelets may 18 be positioned between the channels 30 to provide drawstring threading options. The eyelet 18 arrangement may allow for multiple drawstring threading patterns that create different assembled bag shapes. Each eyelet 18 may be reinforced to withstand the tension forces applied during drawstring cinching operations. The eyelet 18 positioning may be calculated to provide spacing for various threading configurations. The reinforcement may prevent tearing or deformation of the textile material around each eyelet 18 opening. The eyelet 18 pattern may complement the radial channel 30 arrangement to maximize structural customization options. The positioning may provide smooth drawstring 6 movement during assembly and disassembly processes.

The inner lining 10 may include loops 44 of various sizes affixed to the textile surface for accessory attachment purposes. The loops 44 may be positioned to remain accessible when the bag 1 is assembled into different configurations. Each loop 44 may be configured to secure keys, keychains, or other small accessories for convenient retrieval. The loop 44 sizes may vary to accommodate different accessory types and attachment mechanisms. The positioning may be optimized to prevent interference with the channel 30 structures or eyelet 18 arrangements. The loops 44 may be distributed across the inner lining 10 surface to provide multiple attachment options. The attachment points may be reinforced to support the weight of secured accessories during transport. The loop 44 arrangement may complement the overall functionality of the assembled bag 1 configurations.

The loops 44 may be constructed from elastic materials that provide secure retention while allowing attachment and removal. Nylon materials may be used for loop 44 construction to provide durability and flexibility characteristics. Cotton materials may be selected for loops 44 when softer texture properties are desired for specific applications. The elastic properties may allow the loops 44 to accommodate accessories of varying sizes and shapes. The material selection may influence the retention force applied to secured accessories during bag movement. The elastic construction may prevent damage to delicate accessories through excessive clamping forces. The loop 44 materials may be selected to complement the inner lining 10 textile properties and appearance. The elastic characteristics may maintain consistent performance through repeated stretching and relaxation cycles.

The reinforced base 4 construction may create a stable foundation that supports the bag contents when assembled. The reinforcing second inner layer 28 may distribute load forces across a larger surface area to prevent localized stress concentrations. The smaller diameter configuration may create a circumferential flap 38 region, as illustrated in FIG. 8, that forms interior pockets 40 when the bag is assembled. The flap 38 region may provide additional storage compartments that remain accessible during bag use. The pocket 40 formation may occur naturally as the drawstring 6 cinches the outer circumference and the reinforced base 4 maintains its shape. The interior pockets 40 may accommodate smaller items that require separation from the main bag contents. The reinforced construction may maintain the pocket 40 shapes even when the bag 1 is subjected to movement during transport. The base 4 reinforcement may provide a stable platform for the bag 1 when placed on surfaces during loading or unloading operations.

Referring to FIG. 4, the outer lining 8 of the reconfigurable bag may be displayed in the unassembled flat configuration. The outer lining 8 may comprise a circular-shaped textile that forms the exterior surface 8 of the bag when assembled. The circular configuration may provide uniform material distribution across the outer surface during assembly operations. The outer lining 8 may be constructed from materials that complement the inner lining 10 properties while providing enhanced aesthetic appeal. The textile selection may influence the overall durability and appearance of the assembled bag 1. The outer lining 8 may be affixed to the inner lining 10 through stitching or other suitable attachment methods along the circumferential edges 22. The attachment process may create a unified structure that maintains dimensional stability during repeated assembly cycles. The outer lining 8 construction may accommodate various decorative patterns, colors, or textures based on user preferences.

The outer lining 8 may include a plurality of D-ring attachments 46 positioned around the circumference of the textile. The D-rings 46 may be affixed to the outer lining surface through reinforced attachment points that distribute load forces effectively. Each D-ring 46 may be constructed from metal materials that provide durability and corrosion resistance during extended use. The attachment hardware may be positioned approximately equidistant from one another to provide balanced load distribution when carrying straps 14 are connected. The D-ring 46 positioning may allow for strap 14 repositioning based on the assembled shape of the bag 1. The attachment points 46 may be reinforced with additional fabric layers or backing materials to prevent tearing under load conditions. The D-ring 46 orientation may be configured to facilitate smooth strap 14 movement during carrying operations. The hardware selection may complement the overall aesthetic design of the outer lining 8 while providing functional attachment capabilities.

The eyelet 18 arrangement on the outer lining 8 may correspond to the eyelet 18 positioning on the inner lining 10 to create aligned openings for drawstring 6 threading. The eyelets 18 may be reinforced with metal grommets or other strengthening materials to withstand repeated drawstring tension forces. Each eyelet 18 may be positioned between the D-ring attachment points 46 to use the available space along the circumferential edge. The eyelet 18 spacing may be calculated to provide multiple threading pattern options for different assembled bag configurations. The reinforcement materials may prevent fabric tearing or deformation around each eyelet 18 opening during cinching operations. The eyelet 18 alignment between the inner 10 and outer linings 8 may provide smooth drawstring movement through both textile layers. The positioning pattern may complement the radial channel 30 arrangement to maximize structural customization options. The eyelet 18 construction may maintain consistent opening dimensions through repeated assembly and disassembly cycles.

The reinforcement patterns visible on the outer lining 8 may indicate the underlying structural elements of the bag construction. The stitching patterns may reveal the position of the reinforced base 4 section created by the second inner layer 28. The reinforcement stitching may be visible as circular or concentric patterns that correspond to the inner lining 10 construction. The stitching lines may provide additional structural integrity to the outer lining 8 while creating visual design elements. The reinforcement patterns may distribute stress forces across larger areas of the textile to prevent localized failure points. The stitching configuration may complement the overall aesthetic design while providing functional benefits. The pattern visibility may vary based on the outer lining 8 material selection and construction techniques. The reinforcement elements may maintain their effectiveness even when the outer lining 8 is subjected to stretching during assembly operations.

Exterior pockets 12 may be sewn onto or affixed to the outer lining surface to provide additional storage capabilities. The pockets 12 may be positioned to remain accessible when the bag 1 is assembled into various configurations. Each exterior pocket 12 may be constructed from materials that complement the outer lining 8 properties while providing durability for repeated use. The pocket 12 positioning may be optimized to avoid interference with the D-ring attachments 46 or eyelet 18 arrangements. The attachment methods may include stitching, adhesive bonding, or other suitable techniques that provide secure pocket retention. The pocket 12 dimensions may vary based on the intended storage requirements and overall bag proportions. The exterior pockets 12 may include closure mechanisms such as zippers, snaps, or hook and loop fasteners for content security. The pocket 12 integration may enhance the functional versatility of the bag 1 while maintaining the aesthetic appeal of the outer lining 8.

The outer lining 8 construction may accommodate the integration of a storage pouch that enables compact storage when the bag is not in active use. The pouch may be positioned on the outer lining 8 surface in a location that minimizes interference with other functional elements. The pouch dimensions may be calculated to accommodate the folded bag volume while maintaining a compact profile. The pouch attachment may be accomplished through stitching or other permanent attachment methods that provide secure retention. The pouch opening may include closure mechanisms that prevent the folded bag from escaping during storage or transport. The pouch positioning may be selected to maintain balance when the bag 1 is folded and stored within the pouch structure. The storage configuration may reduce the overall storage volume by a substantial percentage compared to the unfolded bag dimensions. The pouch integration may facilitate convenient transport and storage of the bag 1 when not in use.

The attachment hardware 46 positioning on the outer lining 8 may be coordinated with the overall structural design to optimize load distribution and carrying comfort. The D-ring 46 placement may be calculated to provide multiple strap attachment 16 options that accommodate different assembled bag shapes. The hardware spacing may allow for single-point or multi-point strap 14 attachment configurations based on user preferences and load requirements. The attachment points 16 may be reinforced with backing plates or additional fabric layers that distribute forces across larger surface areas. The hardware orientation may be configured to minimize strap 14 twisting or binding during carrying operations. The positioning pattern may complement the eyelet 18 arrangement to provide maximum flexibility in bag configuration and carrying options. The attachment system may accommodate various strap 14 types and lengths while maintaining secure connections. The hardware selection may provide compatibility with standard carrying accessories while offering enhanced durability for extended use applications.

Referring to FIG. 5, the reconfigurable bag 1 may be shown in an assembled configuration that incorporates a divider 42 element positioned within the interior space. The divider 42 may be constructed from rigid or semi-rigid materials such as plastic that provide structural support to the assembled bag. The divider 42 positioning may create separate compartments within the bag structure that allow for organized storage of different item types. The compartmentalization may enhance the functional versatility of the bag by preventing item mixing during transport operations. The divider 42 placement may be coordinated with the channel 30 arrangement to optimize structural integrity. The assembled configuration demonstrates how the divider 42 integrates with the existing bag components without compromising the overall functionality. The divider 42 implementation may allow users to customize the interior organization based on specific storage requirements.

As shown in FIG. 11, the divider 42 may include slits cut near opposing vertical edges that provide secure positioning within the bag structure. The slits 41 may be dimensioned to accommodate insertion into selected channels 30 that extend radially from the central region of the bag 1. The slit 41 configuration may all 1525ow the divider 42 edges to engage with the channel 30 structures for stable retention during bag use. The opposing slit 41 arrangement may distribute the retention forces across multiple attachment points to prevent divider 42 displacement. The slit 41 dimensions may be calculated to provide secure engagement while allowing for divider 42 removal when reconfiguration is desired. The vertical edge positioning may use the structural support provided by the channel 30 system. The slit 41 design may accommodate various channel 30 widths to provide compatibility with different bag configurations. The engagement of the divider 42 within the channel 30 may maintain divider 42 position when the bag contents shift during transport operations.

The relationship between the channels 30 and divider 42 positioning may create a coordinated structural system that enhances bag stability. The channels 30 may provide predetermined insertion points that guide divider 42 placement for compartment formation. The radial channel 30 arrangement may allow for multiple divider 42 orientations that create different compartment configurations within the assembled bag 1. The channel 30 spacing may be calculated to accommodate various divider 42 sizes while maintaining structural integrity throughout the bag 1. The divider 42 insertion into opposing channels 30 may create a stable framework that resists deformation under load conditions. The channel-divider interface may distribute stress forces across the bag structure to prevent localized failure points. The coordinated system may allow for selective channel 30 use based on desired compartment arrangements. The structural integration may maintain effectiveness when the bag shape is modified through different drawstring6 threading patterns.

The compartment formation achieved through divider 42 implementation may provide distinct storage zones within the assembled bag 1. The divider 42 positioning may create separate sections that accommodate different item categories while maintaining access through the main bag opening. The compartment dimensions may vary based on the divider 42 placement and the overall bag configuration selected through drawstring 6 threading. The separate sections may prevent item migration during transport while allowing for efficient organization of bag contents. The compartmentalization may be particularly beneficial for applications requiring segregation of different item types or sizes. The divider 42 placement may be adjusted to create asymmetrical compartments when specific storage requirements dictate unequal section sizes. The compartment accessibility may be maintained through the main bag opening regardless of the divider 42 configuration selected. The storage zones may accommodate various item shapes and sizes while maintaining structural separation throughout transport operations.

The assembled bag 1 configuration with divider 42 implementation may demonstrate the versatility of the reconfigurable design through the creation of multiple functional zones. The divider 42 system may allow users to adapt the bag interior organization to match changing storage requirements without additional bag purchases. The compartment creation may be accomplished through divider 42 insertion into the appropriate channels 30 followed by boning 32 placement for structural reinforcement. The reconfiguration process may be reversed by removing the divider 42 and boning 32 elements to restore the single-compartment configuration. The divider 42 implementation may be combined with different drawstring threading patterns to create various bag shapes while maintaining the compartmentalized interior organization. The system flexibility may accommodate both temporary compartmentalization for specific transport needs and permanent configuration for consistent organizational requirements. The assembled configuration may provide a practical demonstration of how the various bag components work together to create a customizable storage solution. The divider 42 integration may represent one of multiple possible interior configurations that can be achieved through the modular design approach.

Referring to FIG. 6, the reconfigurable bag 1 may be shown in an assembled configuration that demonstrates an alternative interior arrangement without divider 42 elements. The assembled bag 1 may display a flower-like pattern when viewed from above. The pattern may be created through the interaction between the radial channel 30 arrangement and the drawstring 6 threading configuration. The flower-like appearance may result from the way the textile material gathers and folds around the channel 30 structures. The assembled configuration may demonstrate how the bag shape can be modified through different drawstring 6 threading patterns. The alternative arrangement may provide a single-compartment interior space that accommodates various storage requirements. The configuration may showcase the versatility of the bag design without additional divider components.

The channel 30 arrangement may create structural elements that extend outward from the central region in a radial pattern. The channels 30 may provide framework support that maintains the flower-like appearance when the drawstring 6 is cinched. Each channel 30 may contribute to the formation of individual petals or sections in the overall pattern. The radial distribution may ensure uniform structural support across the assembled bag configuration. The channel 30 positioning may allow for selective boning insertion to enhance specific sections of the flower-like pattern. The structural framework may maintain the distinctive appearance even when the bag contents shift during transport operations. The channel 30 system may provide the foundation for the alternative configuration while maintaining compatibility with other assembly options.

The drawstring 6 threading pattern utilized in this configuration may differ from other assembly methods to create the specific flower-like appearance. The threading sequence may involve selective eyelet 18 usage that promotes the formation of distinct sections around the bag circumference. The drawstring tension may be distributed unevenly to create the petal-like formations visible in the assembled configuration. The threading pattern may allow for fine-tuning of the section definitions through adjustment of the drawstring tension. The selective eyelet 18 engagement may create gathering points that enhance the flower-like pattern formation. The threading configuration may be reproducible to ensure consistent assembly results when the alternative configuration is desired. The drawstring 6 pattern may complement the channel 30 arrangement to optimize the structural integrity of the assembled bag 1.

The bag shape variations achievable through different drawstring threading patterns may include compact tote configurations that minimize the overall bag dimensions. The compact tote shape may be created through specific eyelet 18 selection that draws the bag material inward to reduce the assembled volume. The lengthy tote configuration may be achieved through alternative threading patterns that elongate the bag shape in one dimension. The accordion carrier shape may result from threading patterns that create multiple gathering points along the bag circumference. The tube-shaped bag configuration may be formed through threading sequences that maintain cylindrical geometry throughout the assembled structure. Each shape variation may provide different internal volume characteristics and carrying properties. The threading pattern selection may allow users to optimize the bag configuration for specific storage requirements and transport conditions.

The internal structure variations created through different drawstring threading patterns may influence the accessibility and organization of bag contents. The flower-like pattern may create natural divisions within the single-compartment space that facilitate item organization. The petal-like sections may provide semi-separated storage zones without requiring physical divider elements. The internal structure may change dynamically based on the drawstring tension and threading pattern selected during assembly. The structural variations may accommodate different item shapes and sizes through the flexible internal geometry. The threading pattern may influence how the bag contents settle and distribute within the assembled space. The internal structure adaptability may provide functional benefits that complement the aesthetic variations achieved through different assembly configurations.

The alternative configuration may demonstrate the modular design approach that allows for customization without additional hardware components. The flower-like pattern may be achieved using the same basic bag components used in other assembly configurations. The configuration flexibility may reduce the need for multiple bag purchases by providing diverse functionality within a single product. The assembly process may be accomplished through drawstring threading pattern changes without specialized tools or techniques. The alternative configuration may be combined with selective boning 32 placement to enhance specific aspects of the flower-like pattern. The modular approach may allow users to experiment with different configurations to identify arrangements for specific applications. The configuration versatility may provide long-term value through the ability to adapt the bag functionality as storage requirements change over time.

Referring to FIG. 7, the graphical representation may illustrate the structural foundation of the reconfigurable bag through the detailed arrangement of channels 30 and eyelets 18 within the circular lining configuration. The radial channel 30 pattern may extend systematically from the central region toward the outer circumference of the lining. Each channel 30 may be positioned to provide structural support distribution across the assembled bag configuration. The channels 30 may be arranged in a symmetrical pattern that provides balanced load distribution when boning inserts 32 are positioned within the channel 30 structures. The radial arrangement may improve the structural integrity of the bag while maintaining flexibility for various assembly configurations. The channel 30 positioning may be calculated to provide structural benefit while minimizing interference with other functional elements. The systematic arrangement may provide consistent performance across different bag configurations and loading conditions. The radial pattern may create a framework that supports various assembled shapes through selective boning 32 placement within the channel 30 structures.

The channel 30 construction may be accomplished through precise stitching techniques that create enclosed spaces for boning 32 insert accommodation. Two layers of fabric may be stitched together in parallel lines to form each channel 30 structure. The stitching pattern may create consistent channel 30 dimensions that accommodate various boning 32 insert cross-sectional shapes and sizes. The parallel stitching lines may be spaced to provide secure boning 32 retention while allowing for easy insertion and removal operations. The stitching technique may ensure channel 30 durability through repeated boning 32 insertion and removal cycles. The fabric layers may be selected to provide appropriate strength characteristics for the stitching attachment while maintaining flexibility for bag assembly operations. The stitching pattern may be reinforced at stress concentration points to prevent channel 30 failure under load conditions. The construction method may create channels 30 that maintain dimensional stability throughout the bag assembly and disassembly processes.

The boning inserts 32 accommodated by the channel 30 structures may be constructed from various materials that provide different structural characteristics for bag customization. Plastic materials may be used for boning 32 construction to provide lightweight structural support with moderate flexibility characteristics. Aluminum materials may be selected for boning applications where enhanced structural rigidity while maintaining reasonable weight properties is desired. Metal wire materials may be used for boning inserts 32 when bendable characteristics are desired for shape customization applications. The metal wire construction may allow for manipulation into different shapes while maintaining the ability to hold the configured form during bag use. The bendable properties may allow users to create custom structural configurations that improve bag performance for specific applications. The material selection may influence the overall bag weight and structural characteristics based on the number and placement of boning inserts 32 used. The various material options may provide flexibility in customizing the bag structural properties to match different usage requirements and load conditions.

The reinforced lining configuration may accommodate various bag size implementations that range from compact personal accessories to large-capacity transport containers. The reinforced lining may be constructed in multiple sizes ranging from smaller configurations suitable for purses or lunch totes to larger implementations designed for clothing, toys, or work items. The smaller size implementations may provide enhanced portability while maintaining the structural integrity benefits of the reinforced base 4 design. The compact configurations may be optimized for personal item transport while retaining the reconfiguration capabilities of the channel and eyelet systems. The larger size implementations may accommodate substantial storage volumes while distributing load forces effectively through the reinforced base construction. The size scaling may maintain proportional relationships between the reinforced base section and the primary lining dimensions. The channel 30 system may be scaled appropriately to provide adequate structural support across different bag size implementations. The reinforced lining design may maintain effectiveness across the full range of size variations while preserving the functional characteristics of the pocket 40 formation and structural support systems.

The structural performance characteristics of the reinforced lining may provide enhanced durability and load distribution capabilities compared to single-layer lining configurations. The reinforced base section may distribute concentrated loads across larger surface areas to prevent material failure at stress concentration points. The dual-layer construction may provide redundant structural support that maintains bag integrity if localized material degradation occurs. The reinforced configuration may resist deformation under heavy loading conditions while maintaining the flexibility for assembly operations. The structural enhancement may extend the operational lifespan of the bag through improved resistance to wear and fatigue. The reinforced base may provide a stable platform for the bag when placed on surfaces during loading and unloading operations. The structural integrity may be maintained across repeated assembly and disassembly cycles without degradation of the reinforcement effectiveness. The enhanced durability characteristics may provide long-term value through sustained performance under various usage conditions and load requirements.

Referring to FIG. 9, the reconfigurable bag 1 may be displayed in an alternative assembled configuration that demonstrates the curved profile characteristics achievable through selective structural modifications. The side view perspective may reveal the three-dimensional shape formation that results from specific drawstring threading patterns and boning placement configurations. The curved profile may be created through the interaction between the radial channel system and the circumferential eyelet arrangement when assembled according to alternative threading sequences. The profile curvature may provide enhanced structural stability while maintaining the functional accessibility of the bag interior. The alternative embodiment may demonstrate how the same basic bag components can be reconfigured to create distinctly different assembled shapes. The curved configuration may offer improved load distribution characteristics compared to other assembled shapes. The side view may illustrate the relationship between the structural support elements and the overall bag geometry. The profile shape may be maintained through the coordinated action of the drawstring tension and the internal structural framework.

The carrying strap attachment configuration may be optimized for the curved profile shape through strategic positioning of the connection points along the bag structure. The strap may extend horizontally from one side of the bag to provide balanced load distribution across the curved profile. The attachment points may be positioned to align with the structural framework elements that provide enhanced load-bearing capacity. The horizontal strap orientation may complement the curved profile by distributing carrying forces along the strongest structural elements of the assembled bag. The strap attachment may be accomplished through connection to reinforced mounting points that distribute stress forces across larger areas of the bag structure. The carrying configuration may provide comfortable handling characteristics while maintaining secure attachment under various load conditions. The strap positioning may be coordinated with the curved profile geometry to optimize the carrying balance and stability. The attachment system may accommodate different strap lengths and materials while maintaining secure connection to the bag structure.

The drawstring mechanism may be configured to create the distinctive curved profile through selective eyelet engagement and tension distribution patterns. The drawstring may be threaded through specific eyelets that promote the formation of the curved geometry when cinching forces are applied. The threading pattern may create uneven tension distribution around the bag circumference that results in the curved profile formation. The drawstring tension may be concentrated in specific regions to create the curvature while maintaining structural integrity throughout the assembled bag. The mechanism may allow for fine-tuning of the profile curvature through adjustment of the drawstring tension at different eyelet positions. The threading sequence may be reproducible to ensure consistent curved profile formation when the alternative embodiment configuration is desired. The drawstring material properties may influence the curvature characteristics through the interaction between material elasticity and tension distribution. The mechanism may maintain the curved profile shape even when the bag contents shift during transport operations.

Referring to FIG. 10, the reconfigurable bag 1 may be displayed in an assembled configuration that reveals the interior structural framework through a perspective view of the internal compartment space. The interior perspective may demonstrate how the channel 30 system integrates with the assembled bag structure to provide accommodation for removable boning 32 inserts. The channels 30 are visible along the interior surface 10 as distinct structural elements that extend from the central region toward the upper portions of the assembled bag 1. The channel 30 arrangement creates a framework that supports the bag shape while allowing for customization through selective boning 32 placement. The interior view may illustrate how the radial channel 30 pattern translates into vertical structural elements when the bag is assembled through drawstring cinching operations. The assembled configuration shows how the channels 30 maintain their structural integrity while accommodating the three-dimensional transformation from the flat circular textile to the upright bag form. The perspective view also reveals the relationship between the channel 30 system and the overall interior space organization. The structural elements may be positioned to provide support without significantly reducing the available storage volume within the assembled bag.

The interior view shows how the boning inserts 32 interact with the channel 30 structures to provide enhanced structural support for the assembled bag configuration. The accommodation system may allow for selective boning 32 placement based on desired structural characteristics and load distribution requirements. The channels 30 are designed to prevent boning 32 migration during bag movement while allowing for convenient insertion and removal when reconfiguration is desired. The accommodation features demonstrate how the modular approach to structural reinforcement integrates with the overall bag design. The boning 32 system may provide users with the ability to customize the bag structural characteristics based on specific usage requirements and load conditions.

The strap 14 attachment system may provide versatility in carrying configurations through the coordinated relationship between the attachment hardware and the assembled bag geometry. The carrying strap 14 may be repositioned based on the specific shape achieved through drawstring threading patterns and structural reinforcement selections. The attachment points 16 may be distributed around the bag circumference to accommodate various carrying orientations while maintaining secure connection under load conditions. The strap 14 system may integrate with the overall bag design to provide comfortable handling characteristics across different assembled configurations. The attachment hardware may be selected to provide durability and reliability for extended use applications while maintaining compatibility with various strap 14 materials and dimensions.

The reconfigurable bag system may demonstrate significant advantages over traditional fixed-configuration carrying solutions through the integration of multiple customization mechanisms within a single product platform. The combination of adjustable structural elements, configurable assembly patterns, and modular organizational components may provide users with unprecedented versatility in adapting their carrying solution to match changing requirements. The system may eliminate the need for multiple bag purchases while providing superior functionality compared to single-purpose alternatives. The modular design approach may enable continuous customization and reconfiguration throughout the product lifecycle, providing long-term value through sustained adaptability to evolving user needs and applications.

It should be understood that the invention can be implemented in various manners, including as a process, an apparatus, a system, a device, a method, or a combination of physical components and materials. The invention may take the form of an entirely physical embodiment utilizing textile materials, hardware components, and mechanical fastening systems, or an embodiment that combines physical elements with integrated technological components such as sensors, tracking devices, or smart materials that respond to environmental conditions or user inputs.

The reconfigurable bag system may be manufactured using various textile materials and construction techniques to optimize performance characteristics for specific applications. Cotton fabrics may be utilized to provide breathability and comfort while supporting various dyeing and printing processes for aesthetic customization. Nylon materials may be selected for applications requiring enhanced durability, water resistance, and lightweight characteristics. Vinyl materials may be employed when easy cleaning and maintenance are prioritized, particularly for applications involving food storage or outdoor use. The material selection may influence the overall bag performance including weight, durability, weather resistance, and aesthetic appeal.

The manufacturing processes for the reconfigurable bag system may incorporate various textile construction techniques to achieve the required structural and functional characteristics. Stitching operations may be performed using industrial sewing equipment capable of handling multiple fabric layers and reinforcement materials. The channel construction may be accomplished through precision stitching techniques that create consistent dimensions and secure attachment points for the structural framework. The eyelet installation may be performed using specialized hardware insertion equipment that ensures proper reinforcement and dimensional accuracy. The manufacturing process may include quality control procedures that verify the structural integrity and functional performance of each completed bag unit.

The hardware components utilized in the reconfigurable bag system may be selected from various materials and configurations to optimize performance and durability characteristics. Metal hardware including D-rings, eyelets, and fasteners may be constructed from stainless steel, aluminum, or other corrosion-resistant alloys to provide long-term reliability in various environmental conditions. Plastic components may be manufactured from high-strength polymers that provide lightweight characteristics while maintaining structural integrity under load conditions. The hardware selection may be coordinated with the textile materials to ensure compatibility and optimal performance throughout the product lifecycle.

The boning insert system may accommodate various structural materials that provide different performance characteristics for bag customization applications. Plastic boning materials may be manufactured from flexible polymers that provide structural support while allowing for shape modification and compact storage. Metal wire boning may be constructed from spring steel or other alloys that maintain shape retention while allowing for user manipulation and customization. Composite materials may be utilized for boning applications requiring specific combinations of flexibility, strength, and weight characteristics. The boning material selection may be optimized for specific bag size implementations and intended load requirements.

The drawstring system may be implemented using various cord materials and construction techniques to provide reliable closure and assembly functionality. Natural fiber cords including cotton and hemp may be utilized for applications prioritizing environmental sustainability and biodegradability. Synthetic materials including nylon and polyester may be selected for enhanced durability and weather resistance characteristics. The drawstring construction may incorporate various weaving or braiding techniques that optimize strength, flexibility, and handling characteristics. The cord diameter and construction may be selected based on the bag size implementation and expected load requirements.

The securing mechanisms for the drawstring system may be implemented using various hardware configurations that provide reliable closure while facilitating easy operation. Cord toggles may be manufactured from plastic or metal materials with internal mechanisms that provide secure cord retention while allowing for quick release when reconfiguration is desired. Spring-loaded clasps may be utilized for applications requiring enhanced security and tamper resistance. Magnetic closure systems may be employed when silent operation and ease of use are prioritized. The securing mechanism selection may be coordinated with the overall bag design to provide optimal functionality and aesthetic integration.

The modular design approach utilized in the reconfigurable bag system may enable various customization and expansion possibilities that extend the product functionality beyond basic carrying applications. Additional accessory components may be developed that integrate with the existing channel and attachment systems to provide specialized functionality for specific applications. Insulation inserts may be designed to fit within the bag structure to provide thermal protection for food storage or temperature-sensitive items. Organizational accessories including mesh dividers, elastic retention systems, and modular pocket inserts may be developed to enhance the internal storage capabilities. The modular platform may support continuous product development and customization options that adapt to evolving user requirements and market demands.

The environmental considerations associated with the reconfigurable bag system may provide significant sustainability advantages compared to traditional multiple-bag solutions. The single-product approach may reduce material consumption and manufacturing energy requirements compared to producing multiple specialized bags. The durable construction and reconfigurable design may extend the product lifecycle through sustained utility across changing user requirements. The material selection may prioritize recyclable and biodegradable options where performance requirements permit. The modular design may facilitate component replacement and upgrade options that further extend the product lifespan while reducing waste generation.

The quality assurance procedures for the reconfigurable bag system may incorporate various testing and validation protocols to ensure consistent performance and reliability across production batches. Structural testing may be performed to verify the load-bearing capacity of the channel system, attachment points, and textile construction under various loading conditions. Durability testing may include cyclic assembly and disassembly operations to validate the long-term performance of the drawstring system and hardware components. Environmental testing may be conducted to verify performance under various temperature, humidity, and exposure conditions. The quality assurance program may include statistical process control procedures that monitor manufacturing consistency and identify potential quality issues before product release.

The packaging and distribution considerations for the reconfigurable bag system may optimize the shipping efficiency and customer experience while protecting the product during transport and storage. The flat storage configuration of the unassembled bag may enable compact packaging that reduces shipping costs and environmental impact. The packaging design may include instructional materials that demonstrate the various assembly configurations and customization options available to users. The packaging materials may be selected to provide adequate protection while minimizing environmental impact through recyclable or biodegradable options. The distribution strategy may accommodate various retail channels including traditional brick-and-mortar stores, online platforms, and direct-to-consumer sales models.